TAOS PUEBLO'S SACRED PATH

WELLNESS & RECOVERY PROGRAM (WRP)

Table of Contents

Section One: The Conceptual Framework

Introduction………………….……………………………………………………………..………1

The Disease of Addiction: The Dopamine Model…………...……………………………………2

The Limbic Brain's Protection Function……………………………………………………….… 3

The Limbic Brain's Pursuit Function………………………………………………………….…..4

The Disease of Addiction: The Brainwave Model………………………………………………..7

The Disease of Addiction: A Summary……………………………………………………….…..7

Implications for Treatment…………………………………………………………………….….8

Section Two: WRP Program Overview

Four Tools for Recovery………………………………………………………………….……10

Program Description

Core Groups ……….………………………………………….…………………...... 12

WRP Components………………..………………………………………………………12

The Women's Group Schedule………………………………..….……………………...17

The Men's Group Schedule………………………………………………………………18

The Evening Group Schedule……………………………………………………………19

The Three Phases of the WRP………………………………………………………….20

WRP Sessions Required for Compliance……..………………………...……………….21

Section Three: The Wellness Court

An Overview……………………………………………….……………………………………22

The Sanction Schedule………………………………..…………………………………………23

Requirements for Compliance……………………………..……………………………...... 24

Summary of Wellness Court Requirements……………………………………..……………….26

Foundational Agreements…………………………………………………………………...... 26

Signature Page…………………………………………………….…………………………...27

Noncompliance Analysis………………………………………………………………………..28

“We must be the change we wish to see”

Ghandi

Taos Pueblo’s Sacred Path Wellness & Recovery Program (WRP)

Section One: The Conceptual Framework

I. Introduction

Life is a journey. We each choose our path. Our path or journey is determined by the many choices, big and small, that we make each and every day. Taos Pueblo's Sacred Path Wellness Recovery Program (WRP) draws upon traditional culture and contemporary neuroscience to provide a state of the art, evidence-based, holistic approach to the treatment of addictions. Contemporary neuroscience shows that all addictions, whether it be compulsive gambling, uncontrollable eating, or alcoholism, share the same neurobiological causal pathway in the brain. Addiction is now understood to be a physiological disease, much like diabetes, that results when a certain behavior or substance is engaged in or consumed repeatedly leading to physical dysfunctions and changes in the brain. The physiological dysfunctions associated with the disease of addiction become the driving force behind the destruction that occurs in virtually all areas of a person's life, including their emotional and psychological wellbeing, their social relationships, and their spirituality.

Unfortunately, until recently efforts to help those in the throes of addiction have ignored the physiological basis of the disease, the "hardware problems", and focused almost exclusively on thesocial aspects, thinking, behavior, and other "software problems". As a result, the effectiveness of such treatments has been limited. In fact, it is estimated that 80% of the people who receive conventional help, which includes the standard treatment programs and self-help groups,for alcohol and other drug addictions relapse and return to their addiction behavior following treatment. In order to be more successful, programs, like Taos Pueblo's Sacred Path Wellness Recovery Program, must go well beyond what has been done before and address all aspects of the illness, including its physiological foundationand the relatedpsychological, social, and spiritual dimensions. To do this, the program and its participants must have a solid understanding of the biological basis of the disease of addiction.

II. The Disease of Addiction: The Dopamine Model

Understanding the brain's role in addiction and treatment can be instrumental in freeing people from the chains of addiction. In order to understand the disease of addiction, it is helpful to first review how the healthy, well-functioning brain works. The human brain is the supercomputer that runs your nervous system and your life. This supercomputer weighs about 3 pounds, consists of approximately 100 billion neurons, 50 trillion glial or support cells, and hundreds of trillions of connections, known as synapses. The brain is soft, with a consistency much like tofu or jello. It is protected by a thick skull and floats suspended in a thick fluid called cerebral spinal fluid. The cells within the brain communicate to each other and with the rest of the body through a combination of chemical exchanges (these chemicals are called neurotransmitters) and electrical discharges. In order for the brain to work well, it must be able to produce and efficiently use these neurotransmitters in balance with one another; similarly, it must maintain a balancein its levels of electrical activity. The brain is divided into two halves or hemispheres, and most brain parts are symmetrical with a corresponding left and right side component. The various locations and parts of the brain have distinct functions, much like the different instruments in an orchestra have their unique sounds. The proper workings of the brain are much like a symphony in which each component does its part and comes together in concert to create a whole that is harmonious and beautiful.

The human brain is actually the product of millions of years of evolution and includes three inter-related but distinct systems: the brain stem or the reptilian brain, the limbic system or mammalian brain, and the cerebral cortex or human brain. The cerebral cortex is what most of us think of as the brain. It forms the top layer of the brain, accounts for about 76 per cent of the brain mass, and is the center for those functions that separate humans from other animals, including reason, language, and creativity. For most people without a solid understanding of the brain, the cerebral cortex is the brain, and this limited understanding makes it impossible to understand why people often behave in such seemingly irrational and even self-destructive ways, such as when a person continues to perceive themselves as ugly or stupid when in fact they are attractive and intelligent, when a person continues to relive their past abuse even when they are loved and safe in the present, or when a person continues to consume alcohol, smoke cigarettes, gamble, or over-eat when they are suffering profound negative consequences such as serious health issues, financial problems, and distress to the entire family and community.

In order to understand these apparent paradoxes, including addictions, we must first understand the complexity of the human brain. As humans evolved, we did not drop earlier brain forms and replace them with newer versions; in contrast, much like a typical Taos house, we simply kept adding on, room after room, brain part after brain part, with the result being a system of three brains in one, known as the triune brain. The brain stem or reptilian brain is virtually identical to the brain found in modern day reptiles and contributes to those functions and abilities that a

lizard has, e.g. the cycle for sleeping and waking, the basic arousal level, appetite, walking, etc. The limbic system or the mammalian brain is virtually identical to the brain of a horse or dog and contributes to those functions and abilities possessed by these animals. In particular, the limbic system or mammalian brain in conjunction with the lizard brain has the key task of keeping us alive and insuring our survival. In order to do this, it has two primary jobs: protection and pursuit. Because these jobs are so critical to our survival, as the brain evolved, it limited the ability of the cortex to get in the way and muddle our swift responses by giving the cortex limited power to override or interfere with the primary tasks of protection and pursuit.

III. The Limbic Brain's Protection Function

To protect us from harm, the limbic portion of our brain activates what is often called the “flight or fight” response within the nervous system. The “flight or fight” response refers to the brain’s identification of a threat, and it’s attempt to protect us by releasing the stress hormones, namely adrenaline and cortisol, that prepare the body to respond to danger by activating the sympathetic nervous system, e.g. by stepping on the body’s accelerator, enabling us to mobilize great energy and strength to fight the enemy or to escape the danger as needed. In order to do this, the brain limits the ability of the cortex to "get in the way". For example, if a person is walking through the forest and glances at a dark, slender, curved object laying in the leaves, the limbic brain will quickly register this object as a "threat" and immediately mobilize the "threat response", which we experience consciously as a chill down our back, rapid breathing, increased mental alertness, a surge of energy in our legs and arms, and we may even sense the tiny hairs on our back standing up. All this happens without conscious effort and prepares us to run or to fight, in order to protect us from the danger at hand. Soon after the limbic or mammalian brain activates our protection response system, our cortex finishes its analysis of the object and likely decides that this object is not dangerous, e.g. it is not a snake but rather a stick, and we calmly continue our walk, without ever realizing that these two parts of our brain, separated by ages of evolution, just did a remarkable feat of coordination.

Unfortunately, in the modern world most of our threats are not short-lived and momentary, like the unexpected presence of a snake or saber tooth tiger, but lingering and chronic, like the demands of working too hard for too many hours, or juggling family duties, finances, work obligations, or health challenges, in a world that is increasingly fast paced and stressful. This condition of chronic stress keeps the limbic protection response system engaged which in turn leads many to chronically overproduce (and then possibly deplete) cortisol and adrenaline, which in turn have catastrophic negative effects on all aspects of our health. In fact, many of the major health conditions of our time, such as hypertension, heart disease, diabetes, arthritis, chronic pain, and other physical ailments can be linked to a chronic stress response and associated neurochemical changes in the body. A key point here is that in the same way that we can't simply will or think our way out of high blood pressure (the limbic brain's protection system or accelerator on overdrive), it is not possible to simply will or think our way out of addiction (the limbic brain's pursuit system on overdrive). Moreover, effective treatment and prevention of addiction and other health conditions must help people avoid or shift out of chronic, limbic-driven stress responses. In fact, research shows that over 95% of those with a substance abuse problem report that their major reason for using alcohol or drugsis to cope with stress. An understanding of the brain’s role in addiction, in turn, shows that the more we use alcohol or other drugs to cope with stress, the more we lose our natural ability to cope with stress because of the damage being done to our brain by these substances. The result is a downward spiral: the more we use, the more stressed we become, the more stressed we become, the more we use, and so on.

IV. The Limbic Brain's Pursuit Function

In order to fully understand addiction, we must also look more closely at the second, related function of the limbic system or mammalian brain, namely that of pursuit. Just as the limbic system has been entrusted with the job of keeping us safe by mobilizing our energy to avoid danger, it also has the primary job to identify and mobilize us to pursue those things that will help us to survive. In doing so, the limbic brain serves as our primary reward and navigational system. The major neurotransmitter involved with this pursuit or navigation function is dopamine. In short, through the ages our brain’s navigation system has worked in this simple but effective manner: when we engage in a behavior that is good for our survival or consume a substance that is good for our survival, our brain releases a chemical (a neurotransmitter) called dopamine which is taken in at a particular site deep inside the brain called the nucleus accumbens. When stimulated with dopamine, the nucleus accumbens responds by creating a sense of well-being, satisfaction,and pleasure. This positive sensation is often called the “reward” and we have evolved to do those things and to consume those things that produce this sense of satisfaction or reward, while ignoring those things that do not produce such an effect on us.

As an exampleof the dopamine-driven reward/navigation system, we can look at the life of the bee. For their survival and for the survival of the hive, bees with their tiny brains must “figure out” and “remember” where to fly in order to gather the nectar they need while expending no more energy than necessary to accomplish this task. On their gathering expeditions, bees instinctively land on blossoms, testing how much nectar they contain. If a blossom contains a large amount of nectar, octopamine (the bee’s version of dopamine) is released in their brain and taken up by a single neuron. If the blossom does not contain much nectar, the octopamine is not released and is not taken up by their navigational neuron. After sampling a meadow filled with blossoms, a bee will travel up to five miles to return to its hive before setting out again in search of more nectar. The bee will return to the blossom with ample nectar amidst of field of competing options because its navigation or pursuit system was locked onto this blossom by the release of octopamine, which acts as a honing device. In contrast, it will ignore the blossoms with less nectar which did not produce a release of the neurotransmitter octopamine.

Neuroscience shows that the pursuit system of humans is very similar: we lock onto substances and actions that activate dopamine release at the nucleus accumbens. Over the ages this navigation system worked well for guiding and directing our behavior. For example, when we engage in acts of closeness or bonding, like giving or receiving a hug, when we consume a food good for our survival, like blueberries, or when we work hard or do something we are proud of, dopamine is released and taken in at the nucleus accumbens. By doing so, our brain stamps this substance or behavior as “good” or even necessary for our well-being and survival. In addition, the limbic brain will cling to any information or cues associated with the dopamine activation in order to never forget where and how it got it. Similar to the bee who "remembers" the path back to the nectar-filled blossom, the limbic brain stamps as indelible those memories or cues associated with getting the dopamine. The result is that seeing, hearing, smelling, or even thinking about anything related to the dopamine release becomes seared into the primitive brain and will actually activate a dopamine release by itself.

As a species, our survival has depended upon the ability of dopamine release and the activation of the nucleus accumbens to direct our pursuits. Spurred and motivated by the unconscious desire to achieve dopamine release and activation at the nucleus accumbens, we have evolved with the ability to endure much in order to pursue what our limbic brain labels as good or necessary. For example, many of the things we are most proud of require a good deal of hardship, of varying forms, to achieve. Many of us endured countless hours of less-than-enjoyable studying, work sheets, lectures, and early morning risings in order to achieve the goal of graduating from high school. We were able to stay on track and persevere in part because even thinking of this goal or receiving loving encouragement from others released at least small amounts of dopamine that stimulated the nucleus accumbens and “rewarded” our efforts. We have evolved to lock onto courses of action or to consume substances that even mildly activate via dopamine the nucleus accumbens. The activation of the nucleus accumbens is actually the final step in a cascade of neurochemical processes that starts with serotonin and culminates with dopamine, known as the Reward Cascade.

Unfortunately, as we evolved, our brains were not prepared for the massive dopamine flooding associated with alcohol and other drugs or with certain contemporary conditions, such as easy and ready access to fatty, sugar-filled, and greasy foods. Although the various drugs, including alcohol and addictive behaviors impact the reward cascade in different ways, the end result is the same: they increase the availability of dopamine to the nucleus accumbens and, in doing so, they trick the brain into locking onto them as something good or necessary for our survival. As examples, cocainetriples the level of dopamine in our systemby keeping what we have in circulation longer; nicotinetriples the dopamine level by directly releasing dopamine into the brain; and alcohol doubles the amount of dopamine in the brain indirectly by inhibiting processes that otherwise would limit the amount of dopamine available. Though different in their route of action, all addictive substances and behaviors result in activating the nucleus accumbens via dopamine.

Over time, the very substances or addictive behaviors that initially flood the brain with dopamine actually cripple the brain’s ability to produce and process dopamine, creating a chronic state of deprivation and the associated inability to sustain a sense of pleasure, satisfaction, and well-being. The method for crippling the natural system of dopamine release varies according to the particular drug or addictive behavior, but they all do so by disrupting the Reward Cascade, e.g. by altering the brain’s ability to produce or process serotonin, endorphins, or dopamine. Alcohol for example directly attacks cellular functions, damages the cells RNA (the working blue print for making neurotransmitters from available amino acids), which in turn causes an under-production of serotonin, endorphins, and dopamine, and reduces the number of receptors for these neurotransmitters.